R Notebook

Set-up packages // libraries and prepare for data import:

## Uncomment install.packages and run outside of notebook environment: 
## install.packages(c("psych" ,"xtable", "tidyverse", "jsonlite", "likert", "ggplot2", "ploty", "mosaic"))
library(psych)
library(likert)
library(jsonlite)
library(ggplot2)
library(mosaic)
library(plotly)
source("http://pcwww.liv.ac.uk/~william/R/crosstab.r")
theme_set(theme_classic())

Set-up directories, import and clean data:

rm(list=ls())
setwd("/Users/allieblaising/desktop/bang/R") 
getwd()

[1] "/Users/allieblaising/Desktop/bang/R"

dataPath = "../.data"
## Define function to extract survey results: 
extractSurvey = function(frame,survey) {
  rounds = seq(1,length(frame$results.format[[1]]))
  roundResponses = lapply(rounds, function(round) {
    getCol = paste("results.",survey,".",round, sep="")
    surveyCols = Filter(function(x) grepl(getCol,x),names(frame))
    newCols = lapply(surveyCols, function(x) gsub(getCol,paste("results.",survey, sep=""),x) )
    surveyFrame = frame[,surveyCols]
    if (is.null(newCols)) {return("No newCols")}
    names(surveyFrame) = newCols
    surveyFrame$id = frame$id
    surveyFrame$round = round
    surveyFrame$batch = frame$batch
    surveyFrame$rooms = frame$rooms
    surveyFrame$manipulation = frame$results.manipulationCheck
    surveyFrame$blacklist = frame$results.blacklistCheck
    return(surveyFrame)
  })
  return(Reduce(rbind,roundResponses))
}
#Find directory for import (be sure to verify that batch #s align from bangData import and imports below): 
batches = dir(dataPath, pattern = "^[0-9]+$" )
completeBatches = Filter(function(batch) { 
  if (any(dir(paste(dataPath,batch,sep="/")) == "batch.json") && (any(dir(paste(dataPath,batch,sep="/")) == "users.json")) ) {
    batchData = read_json(paste(dataPath,batch,"batch.json",sep="/"), simplifyVector = TRUE)
    return(any(batchData$batchComplete == TRUE))
  } 
  return(FALSE)
}, batches)
userFiles = lapply(completeBatches, function(batch) {
  userFile = read_json(paste(dataPath,batch,"users.json",sep="/"), simplifyVector=TRUE)
  return(flatten(userFile, recursive = TRUE))
})

Error in flatten(userFile, recursive = TRUE) : 
  unused argument (recursive = TRUE)

More cleaning before visualizations:

## Apply extract survey function to extract the right columns and rows for viability survey: 
survey = 'viabilityCheck'
frame <- extractSurvey(overlappingFiles, survey)
## Reduce to vertically combine rows in roundwithRooms list:  
finalRounds = as.data.frame(Reduce(rbind,roundsWithRooms))
## Subset incomplete cases from viability survey dataframe: 
## MSB: complete.cases doesn't work when there aren't NAs, but empty lists, alternatives rather than subsetting where 
## blacklist is empty? Doens't work: test <- complete.cases(data)
data <- frame[frame$manipulation!="",]
## Rename room to rooms so that both are retained in future merge: 
data <- rename(data, rooms = "rooms")
## Subset incomplete cases for final rounds dataframe: 
data2 <- finalRounds[finalRounds$results.manipulationCheck!="", ]
## Select only variables of interest from final rounds: 
data2 = data2 %>% select(id, batch, room, bonus, name, friends, 
                         friends_history, results.condition, results.format,
                         results.manipulation,results.manipulationCheck,results.blacklistCheck, round)
## Convert to compatible data types before merge (this should be simplified)
data2$batch <- unlist(data2$batch)
data$batch <- unlist(data$batch)
data2$round <- unlist(data2$round)
data2$id <- unlist(data2$id)
## Before merge, data and data2 should ahve the same # of observations
## Merge columns by id, round and batch #s: 
data <- left_join(data, data2, by=NULL)

Joining, by = c("id", "round", "batch")

## Subset only observations with batch #s in complete batches 
allConditions <- data[data$batch %in% completeBatches, ]

Conditionally assign conditions based on treatment and results column:

## Messy, but robust? Verify, verify, verify.  
data <- data %>% mutate(
  condition = case_when(
    results.condition=='treatment' & results.format=="c(1, 2, 1)" & round==1 ~ "A", 
    results.condition=='treatment' & results.format=="c(1, 2, 1)" & round==2 ~ "B", 
    results.condition=='treatment' & results.format=="c(1, 2, 1)" & round==3 ~ "Ap", 
    results.condition=='treatment' & results.format=="c(1, 1, 2)" & round==1 ~ "A", 
    results.condition=='treatment' & results.format=="c(1, 1, 2)" & round==2 ~ "Ap", 
    results.condition=='treatment' & results.format=="c(1, 1, 2)" & round==3 ~ "B", 
    results.condition=='treatment' & results.format=="c(2, 1, 1)" & round==1 ~ "B", 
    results.condition=='treatment' & results.format=="c(2, 1, 1)" & round==2 ~ "A", 
    results.condition=='treatment' & results.format=="c(2, 1, 1)" & round==3 ~ "Ap" ,
    results.condition=='control' & results.format=="c(1, 2, 1)" & round==1 ~ "A", 
    results.condition=='control' & results.format=="c(1, 2, 1)" & round==2 ~ "B", 
    results.condition=='control' & results.format=="c(1, 2, 1)" & round==3 ~ "Ap", 
    results.condition=='control' & results.format=="c(1, 1, 2)" & round==1 ~ "A", 
    results.condition=='control' & results.format=="c(1, 1, 2)" & round==2 ~ "Ap", 
    results.condition=='control' & results.format=="c(1, 1, 2)" & round==3 ~ "B", 
    results.condition=='control' & results.format=="c(2, 1, 1)" & round==1 ~ "B", 
    results.condition=='control' & results.format=="c(2, 1, 1)" & round==2 ~ "A", 
    results.condition=='control' & results.format=="c(2, 1, 1)" & round==3 ~ "Ap" , 
    results.condition=='baseline' & results.format=="c(1, 2, 3)" & round==1 ~ "A" ,
    results.condition=='baseline' & results.format=="c(1, 2, 3)" & round==2 ~ "B" ,
    results.condition=='baseline' & results.format=="c(1, 2, 3)" & round==3 ~ "C" 
  )) 

Set-up for factors for viability questions:

data <- rename(data, "repeatTeam" = results.viabilityCheck.15)
## Remove observations where viability survey wasn't on (remove this line if we want to keep observations with viability off): 
data <- na.omit(data)
levels <- c("Strongly Disagree", "Disagree", "Neutral","Agree", "Strongly Agree") 
clean <- data %>% 
  mutate_at(.vars = vars(contains("results.viabilityCheck")), funs(factor(., levels = levels))) 
## Viabilitylikert visuals: 
## Subset only viabilitySurvey columns and condition column (condition column used to visualize likert responses for conditions)
viabilityLikert <- select(clean, contains("results.viabilityCheck"), "condition", "results.condition")
viabilityLabels = c("1. The members of this team could work for a long time together" 
                    , "2. Most of the members of this team would welcome the opportunity to work as a group again in the future." , 
                    "3. This team has the capacity for long-term success.", 
                    "4. This team has what it takes to be effective in the future.", 
                    "5. This team would work well together in the future." , 
                    " 6. This team has positioned itself well for continued success.",  
                    " 7. This team has the ability to perform well in the future. ", 
                    " 8. This team has the ability to function as an ongoing unit." , 
                    " 9. This team should continue to function as a unit. ", 
                    " 10. This team has the resources to perform well in the future. ", 
                    " 11. This team is well positioned for growth over time. ", 
                    " 12. This team can develop to meet future challenges. ", 
                    " 13. This team has the capacity to sustain itself. ", 
                    " 14. This team has what it takes to endure in future performance episodes.", "condition", "results.condition") 
names(viabilityLikert) <- rep(viabilityLabels) 

Likert visualizations:

## Likert graph for all viability responses across all conditions (i.e. baseline, control and treatment): 
likert.out <- likert(viabilityLikert[-c(15:16)]) 
plot(likert.out)

## Subset A and Ap (i.e. A prime) responses for treatment group: 
# Treatment + A: 
treatmentA <- viabilityLikert %>% filter(condition=="A" & results.condition=="treatment") 
likert.treatmentA <- likert(treatmentA[-c(15:16)])
plot(likert.treatmentA)

# Treatment + Ap: 
treatmentAp <- viabilityLikert %>% filter(condition=="Ap" & results.condition=="treatment") 
likert.treatmentAp <- likert(treatmentAp[-c(15:16)])
plot(likert.treatmentAp)

# Treatment + B: 
treatmentB <- viabilityLikert %>% filter(condition=="B" & results.condition=="treatment") 
likert.treatmentB <- likert(treatmentB[-c(15:16)])
plot(likert.treatmentAp)

## Customize code above to filter on other conditions and treatments of interest. 

Exploratory data analysis part #1:

## Create a new dataframe that converts factors to numeric for statistical analyses: 
stats <- clean %>% mutate_if(is.factor, as.numeric)
for (i in 1:nrow(stats)) {
  stats$sum[i] <- sum(stats[i,1:14])                          
} 
stats$median <- median(stats$sum)
stats$mean <- mean(stats$sum)
## Revalue repeat team: keep plyr b/c some weird R stuff requires library to be called directly (recode values to )
stats$repeatTeam <- plyr::revalue(stats$repeatTeam, c("Yes"="0", "No"="1"))
stats$repeatTeam <- plyr::revalue(stats$repeatTeam, c("Keep this team"="0", "Do not keep this team"="1"))
## Convert to compatible classes for team grouping: 
stats$repeatTeam <- as.numeric(stats$repeatTeam)
stats$results.condition <- unlist(stats$results.condition)
stats$results.format <- as.character(stats$results.format)
stats$room <- unlist(stats$room)
## Dplyr to group teams and summarise variables for each group: group_by to find teams and summarise to compact individual results into group level results (i.e. one row of variable results per team)
groupedProportion <- stats %>%
  group_by(room, batch, round, condition, results.condition, results.format) %>% 
  summarise(n=n(), mean=mean(sum), median=median(sum),prop=sum(repeatTeam)/n) %>% 
## Filter out all teams with n=1 (i.e. a person in a chat room alone)
  filter(n>2)
## Individual proportion: 
individualProportion <- stats %>% group_by(round, batch, room) %>% 
  mutate(sum=sum, mean=mean(sum), median=median(sum), n=n(),prop=sum(repeatTeam)/n) %>% filter(n>1)
## Table showing how many teams we've run in each condition combination:  
table(groupedProportion$condition, groupedProportion$results.condition)

    
     control treatment
  A       10        12
  Ap      10        12
  B        7        13

Exploratory data analysis part #2:

## Plot of prop and mean per team with standard error: 
ggplot(groupedProportion, aes(x=prop, y=mean)) + 
  geom_point() +
  stat_smooth(method = "lm", col = "red") + 
  labs(subtitle="", 
       x="Proportion of answers to Q15: ",
       y="Numeric sum of viability measures questions (range: 7-70)") + facet_grid(condition ~ results.format)

## Unlist for condition for graph: 
groupedProportion$results.condition <- unlist(groupedProportion$results.condition)
## Team viability sum and Q15 factor repeat team answers facet_grid by condition, results.condition and results.format (all users) 
g <- ggplot(stats, aes(factor(repeatTeam), sum))
g + geom_boxplot(varwidth=T, fill="plum") + 
  labs(subtitle="Sum of viability measures grouped by team fracture value", 
       x="Binary fracture value",
       y="Numeric sum of viability measures questions (range: 7-70)") + facet_grid(condition ~ results.format)

g <- ggplot(stats, aes(factor(repeatTeam), sum))
g + geom_boxplot(varwidth=T, fill="plum") + 
  labs(subtitle="Individual fracture score vs. mean viability:", 
       x="",
       y="Numeric sum of viability measures questions (range: 7-70)") + facet_grid(condition ~ results.condition)

## groupedProportion: anlaysis on team level 
ggplot(groupedProportion, aes(x=prop, y=mean)) + 
  geom_point() +
  stat_smooth(method = "lm", col = "red") + labs(title="Team fracture proportion vs. team mean viability") 

## Mean vs. median plot for viability sums per team: 
ggplot(groupedProportion, aes(x=mean, y=median)) + 
  geom_point() +
  stat_smooth(method = "lm", col = "red") + labs(main="Scatterplot of median vs. mean for team viability sums")

ggplot(data=groupedProportion, aes(groupedProportion$prop)) + 
  geom_histogram(breaks=seq(0, 1, by=0.20), 
                 col="red", 
                 fill="green", 
                 alpha=.2) + labs(title="Count of team proportions of fracture value responses", 
                                  x="", y="Count") + facet_grid(condition ~ results.format)

Probability of fracture across teams and condition combinations:

Probability of fracture given condition in treatment:

tally(~fractureGreaterEqual50 | condition, data = conditionalPropTreatment, format = "proportion")

                      condition
fractureGreaterEqual50         A        Ap
                     0 0.5405405 0.6756757
                     1 0.4594595 0.3243243

Boxplot for fracture scores vs. viability score sum (7-70)

Absolute change in fracture proportions between conditions:

Histogram comparisons of fracture ratios across treatment, control and learning effect conditions

ggplot(data=groupedProportionFractureTreatment, aes(fracture)) + 
  geom_bar(breaks=seq(0, 1, by=0.20), 
                 col="red", 
                 fill="green", 
                 alpha=.2) + labs(title="Fracture ratios: treatment condition") + facet_grid(condition ~ results.condition)

Ignoring unknown parameters: breaks

ggplot(data=groupedProportionFractureControl, aes(fracture)) + 
  geom_bar(breaks=seq(0, 1, by=0.20), 
                 col="red", 
                 fill="green", 
                 alpha=.2) + labs(title="Fracture ratios: control round") + facet_grid(condition ~ results.condition)

Ignoring unknown parameters: breaks

ggplot(data=groupedProportionFractureLE, aes(fracture)) + 
  geom_bar(breaks=seq(0, 1, by=0.20), 
                 col="red", 
                 fill="green", 
                 alpha=.2) + labs(title="Fracture ratios: learning effect condition") + facet_grid(results.condition ~ round)

Ignoring unknown parameters: breaks

Graphs for mean distrbution per treatment condition:

## Mean viability distribution graph: treatment condition, A group 
barfill <- "#4271AE"
barlines <- "#1F3552"
## Mean for treatment and A group: ##fill-in) 
meanDistributionTreatmentA <- ggplot(treatmentAStats, aes(x = sum)) +
  geom_histogram(aes(y = ..count..), binwidth = 5,
                 colour = barlines, fill = barfill) +
  scale_x_continuous(name = "Median viability sum",
                     breaks = seq(0, 100, 20),
                     limits=c(0, 70)) +
  scale_y_continuous(name = "count") +
  ggtitle("Frequency of sum of viability scores: N=##fill-in") +
  theme_bw() +
  theme(axis.line = element_line(size=1, colour = "black"),
        panel.grid.major = element_line(colour = "#d3d3d3"),
        panel.grid.minor = element_blank(),
        panel.border = element_blank(), panel.background = element_blank(),
        plot.title = element_text(size = 14, family = "Tahoma", face = "bold"),
        text=element_text(family="Tahoma"),
        axis.text.x=element_text(colour="black", size = 9),
        axis.text.y=element_text(colour="black", size = 9)) +
  geom_vline(xintercept = ##fill-in, size = 1, colour = "#FF3721",
               linetype = "dashed")

Error: unexpected '=' in:
"  geom_vline(xintercept = ##fill-in, size = 1, colour = "#FF3721",
               linetype ="

Chat data:

Conditional probabilities:

CHI Squared: